⚡ MAGNUM OPUS

One repository. Eight languages. The entire Web3 stack.

A multi‑language, AI‑assisted showcase of how a crypto platform fits together, from the browser dashboard down to the on‑chain program.

🌐 Live dashboard demo · 🤝 Contribute · 🔐 Security

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📚 Table of Contents

1. Overview
2. Project status: read this first
3. Architecture
4. Component map
5. Quick start
6. Repository layout
7. Project documents
8. Known limitations
9. Roadmap
10. Contributing
11. License

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🌐 Overview

Magnum Opus is an ambitious, ever‑evolving attempt to put every layer of a modern crypto platform into a single repository, each layer written in the language best suited to the job:

Layer	Language	Role
Dashboard	HTML / CSS / JavaScript	Dark‑theme trading and portfolio UI
Core services	C# (.NET)	Transaction validation, block production, receipts
Performance engine	C++	Hashing, Merkle proofs, order‑matching, AMM math
Smart contracts	Solidity	ERC‑20 token, staking vault, constant‑product DEX
Microservice	Go	Wallet and transfer REST API
Data layer	SQL (PostgreSQL)	Users, wallets, assets, NFTs, DeFi history, audit logs
On‑chain program	Rust (Anchor / Solana)	Vault program with deposits, withdrawals and events
Glue layer	Ruby	Exchange‑rate helpers, wallet balance aggregation
Automation & validation	Python	CI agents, file validation scripts

The goal is to demonstrate breadth, systems thinking and craft across ecosystems. The code is demo‑grade, not audited, and must never be used with real funds.

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⚠️ Project status: read this first

Magnum Opus is a showcase and learning project, not a production product. Please keep the following in mind:

• Demo‑grade code. Components are real, readable implementations but most are stand‑alone modules that are not yet wired together into a running end‑to‑end system.
• Not audited. The contracts, on‑chain program, wallet logic and cryptographic routines have had no independent security review. Never use this code with real assets. See SECURITY.md and TERMS.md.
• AI‑assisted and changing daily. Content is generated and revised by automated agents and checked only by basic automated validation. Expect rough edges.
• No financial advice. Nothing here is investment advice or an offer of any asset. All market data in the dashboard is simulated.

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🏗️ Architecture

flowchart LR
    UI["Dashboard<br/>index.html • styles.css • app.js"]
    GO["Wallet API (Go)<br/>server.go"]
    CS["Core services (C#)<br/>TransactionProcessor.cs"]
    CPP["Crypto engine (C++)<br/>CryptoEngine.cpp"]
    RB["Glue service (Ruby)<br/>WalletService.rb"]
    DB[("PostgreSQL<br/>schema.sql")]
    SOL["Smart contracts (Solidity)<br/>SmartContract.sol"]
    RS["On‑chain program (Rust)<br/>OnChainProgram.rs"]
    PY["Automation (Python)<br/>ai_agent_*.py"]

    UI -.-> GO
    UI -.-> RB
    UI -.-> PY
    GO -.-> CS
    GO -.-> DB
    CS -.-> CPP
    CS -.-> DB
    CS -.-> SOL
    CS -.-> RS
    RB -.-> DB
    PY -.-> GO
    PY -.-> CS

Loading

The C++ engine exposes a C‑linkage API (extern "C") so the C# and Go layers can call into it later through P/Invoke or cgo.

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📦 Component map

File	Language	What is in it today	Status
index.html	HTML	Dark "glass" dashboard: portfolio metrics, charts, order book, wallet UI	✅ Implemented
styles.css	CSS	Theme, layout, glass‑morphism effects	✅ Implemented
app.js	JavaScript	UI state management, simulated market data, event handling	✅ Implemented
TransactionProcessor.cs	C#	Core transaction validation, mock block production, JSON‑API helpers	✅ Implemented
CryptoEngine.cpp	C++	High‑performance hashing, Merkle tree utilities, AMM math library	✅ Implemented
SmartContract.sol	Solidity	ERC‑20 token, staking vault, constant‑product DEX skeleton	✅ Implemented
server.go	Go	Minimal REST API for wallet creation, balance queries, transaction relay	✅ Implemented
WalletService.rb	Ruby	Exchange‑rate fetcher, wallet balance aggregation, simple caching layer	✅ Implemented
schema.sql	SQL	PostgreSQL schema for users, wallets, assets, transaction history, NFT metadata	✅ Implemented
OnChainProgram.rs	Rust	Anchor‑based Solana program: vault initialization, deposit/withdraw logic	✅ Implemented
agent_common.py, ai_agent_*.py	Python	Automation agents that run daily, lint files, generate PRs	✅ Implemented
.github/workflows/daily_agent.yml	YAML	GitHub Actions workflow that triggers the daily AI agent	✅ Implemented
validate_files.py	Python	Helper script used by CI to ensure required files exist and are well‑formed	✅ Implemented
scaffold/test.txt	Text	Placeholder used by CI to verify repository layout	✅ Implemented

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🚀 Quick start

Note: This guide assumes you have a recent version of Node.js, .NET 7 SDK, C++ build tools (gcc/clang or MSVC), Go 1.22+, Ruby 3.2+, and a running PostgreSQL instance.

1. Clone the repository

   git clone https://github.com/LinkHAckerman/MasterProject.git
   cd MasterProject

2. Set up the database

   createdb magnum_opus
   psql -d magnum_opus -f schema.sql

   The schema creates tables for users, wallets, assets, transactions and NFT metadata.

3. Run the front‑end (no build step – static files)

   # You can serve the files with any static server, e.g. Python's http.server
   python -m http.server 8080
   # Then open http://localhost:8080/index.html in a browser

4. Start the C# core service

   dotnet run --project TransactionProcessor.csproj
   # The service listens on http://localhost:5000 by default

5. Build the C++ crypto engine (produces a shared library libcryptoengine.so or cryptoengine.dll)

   mkdir -p build && cd build
   cmake ..
   make   # or `cmake --build .` on Windows
   cd ..

   The library will be loaded by the C# service in a future integration step.

6. Run the Go wallet API

   go run server.go
   # API available at http://localhost:8081

7. Start the Ruby glue service

   ruby WalletService.rb
   # Provides exchange‑rate endpoint on http://localhost:8082

8. (Optional) Deploy the Solidity contracts

   # Requires `forge` or `hardhat`. Example with forge:
   forge build
   forge create --rpc-url https://goerli.infura.io/v3/<PROJECT_ID> src/SmartContract.sol:MagnumOpusDeFiEngine

   The contracts are not deployed in the demo environment.

9. (Optional) Deploy the Solana program

   anchor build
   anchor deploy

   Again, this is illustrative only.

You now have all components running locally. The dashboard UI fetches mock data from the C# and Go services, while the Ruby service supplies fiat‑to‑crypto rates.

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📂 Repository layout

MasterProject/
├─ .github/workflows/daily_agent.yml
├─ CLA.md
├─ CODE_OF_CONDUCT.md
├─ CONTRIBUTING.md
├─ LICENSE
├─ README.md
├─ SECURITY.md
├─ TERMS.md
├─ SmartContract.sol
├─ TransactionProcessor.cs
├─ CryptoEngine.cpp
├─ OnChainProgram.rs
├─ server.go
├─ WalletService.rb
├─ schema.sql
├─ app.js
├─ index.html
├─ styles.css
├─ scaffold/
│  └─ test.txt
├─ agent_common.py
├─ ai_agent.py
├─ ai_agent_cloudflare.py
├─ ai_agent_github_models.py
├─ ai_agent_groq.py
├─ ai_agent_mistral.py
├─ ai_agent_openrouter.py
└─ validate_files.py

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📄 Project documents

• LICENSE – MIT License
• CONTRIBUTING.md – Guidelines for contributing
• CLA.md – Contributor License Agreement
• CODE_OF_CONDUCT.md – Community standards
• SECURITY.md – Security policy and vulnerability reporting
• TERMS.md – Terms of use and disclaimer

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⚙️ Known limitations

• Components are isolated; there is no end‑to‑end integration yet.
• Cryptographic primitives in CryptoEngine.cpp are educational and not vetted for production.
• Smart contracts and the Solana program have no test suite and have not been audited.
• The CI workflow only runs a daily AI agent that validates file presence; no unit or integration tests are executed.
• Documentation is manually maintained and may drift from code.

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🛣️ Roadmap (planned work)

• Integration layer: Wire the Go wallet API, C# core, and C++ engine together via P/Invoke / cgo.
• Real‑time data feeds: Connect the dashboard to live market data APIs.
• Automated testing: Add unit tests for each language component and CI pipelines for linting and security scanning.
• Docker / Helm support: Provide containerised deployment for the full stack.
• Full end‑to‑end demo: Deploy contracts to a testnet, run the Solana program, and demonstrate a complete user flow.
• Security audit: Engage external auditors for the Solidity and Rust code.

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🤝 Contributing

Contributions are welcome! Please read the CONTRIBUTING.md guide, sign the CLA, and follow the CODE_OF_CONDUCT.md. All pull requests are reviewed by the maintainers and the daily AI agent runs validation checks before merging.

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📄 License

This project is licensed under the MIT License – see the LICENSE file for details.